In many models incorporating the type-I seesaw mechanism, the right-handed neutrino (N) couples to heavy vector/scalar bosons and thereby has resonant pair production. It barely receives attention thus far, however, it may provide the best avenue to probe TeV scale N without requiring anomalously large mixing between N and the active neutrino L. In this paper we explore the discovery prospects of (mainly heavy) N pair production at the 14 TeV LHC and future 100 TeV pp collider, based on the three signatures: 1) trilepton from N(! ‘W‘)N(! ‘Wh) with W‘=h the leptonically/hadronically decaying W ; 2) boosted di-Higgs boson plus 6T from N(! Lh)N(! Lh); 3) a single boosted Higgs with leptons and6T from N(! ‘W‘)N(! Lh). At the 100 TeV collider, we also consider the situation when the Higgs boson is over boosted thus losing its jet substructure. Interpreting our tentative results in the benchmark model, the local B L model, we nd that the (multi-) TeV scale
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